Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A system, comprising: a processor; and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations, comprising: receiving identity data representative of a user identity and an adjustable temporal-expiration value associated with temporal control of access to sharable data associated with the user identity, wherein the adjustable temporal-expiration value is adjusted in response to receiving an updated time value via an interface of a user equipment associated with the user identity, and wherein the adjustable temporal-expiration value is stored in a profile of the user identity; determining the sharable data associated with the profile; updating a permission value in response to a first value related to a device other than the user equipment being determined to have transitioned a trigger value, wherein the trigger value corresponds to a selectable spatial condition stored in the profile of the user identity; and enabling access to a portion of the sharable data at a selectable granularity, for the device other than the user equipment, based on the permission value and based on the adjustable temporal-expiration value being determined to satisfy a rule related to the permission value, wherein the selectable granularity is stored in the profile of the user identity.
This invention relates to a system for managing access to sharable data based on temporal and spatial conditions. The system addresses the problem of controlling data access dynamically, ensuring that users can adjust permissions based on time and location constraints. The system includes a processor and memory storing executable instructions that facilitate operations for managing data access. The system receives identity data representing a user and an adjustable temporal-expiration value, which defines how long access to the user's sharable data is permitted. This value can be updated via a user equipment interface and is stored in the user's profile. The system determines the sharable data associated with the profile and updates a permission value when a device other than the user equipment meets a spatial condition stored in the profile. This spatial condition is a selectable trigger, such as proximity to a specific location. Access to a portion of the sharable data is then enabled at a selectable granularity, which is also stored in the profile. The granularity defines the level of detail or scope of the data accessible. Access is granted based on the permission value and whether the temporal-expiration value satisfies a rule related to the permission. This system allows users to dynamically control data sharing based on time and location, enhancing security and flexibility.
2. The system of claim 1 , wherein the first value is a distance value associated with a distance between the device and a boundary represented via the trigger value.
A system for monitoring and controlling device positioning relative to a defined boundary. The system includes a device configured to determine its location and a boundary defined by a trigger value. The device calculates a first value representing the distance between its current position and the boundary. This distance value is used to trigger actions or alerts when the device approaches or crosses the boundary. The system may also include a second value representing a threshold distance, which when exceeded by the first value, initiates predefined responses such as notifications, adjustments to device operation, or logging of boundary breaches. The boundary can be static or dynamic, and the system may adjust the boundary or the threshold distance based on environmental conditions, user preferences, or other contextual factors. The system ensures that the device remains within safe or operational limits, preventing unauthorized access, collisions, or other boundary-related issues. Applications include industrial automation, autonomous vehicles, drone navigation, and asset tracking.
3. The system of claim 1 , wherein the first value is a proximity value associated with a proximity of the device and a location represented via the trigger value.
A system for determining a proximity value between a device and a location is disclosed. The system includes a processor and a memory storing instructions that, when executed, cause the processor to receive a trigger value representing a location and determine a first value associated with the proximity of the device to the location. The proximity value quantifies the spatial relationship between the device and the location, enabling context-aware applications such as location-based services, asset tracking, or navigation. The system may also include additional components, such as a sensor or communication module, to gather data for proximity calculations. The proximity value can be used to trigger actions, such as alerts or adjustments to device settings, based on predefined thresholds or dynamic conditions. The system may further incorporate machine learning models to refine proximity estimates over time, improving accuracy in varying environments. This invention addresses challenges in accurately determining device proximity to specific locations, particularly in dynamic or complex environments where traditional methods may fail. The system enhances situational awareness and enables automated responses based on spatial context.
4. The system of claim 1 , wherein the first value is a location value associated with a comparing a location of the device with a location represented via the trigger value.
A system for location-based triggering compares a device's current location with a predefined location to determine whether an action should be executed. The system includes a device with a location sensor, a processor, and a memory storing a trigger value representing a specific location. The processor compares the device's current location, obtained from the sensor, with the trigger value. If the current location matches or falls within a defined proximity of the trigger value, the system generates an output signal to initiate a predefined action, such as sending a notification, adjusting device settings, or activating a function. The system may also include a user interface for setting or modifying the trigger value, allowing customization of the location-based conditions under which the action is triggered. The comparison may involve precise coordinates or a broader geographic area, depending on the application. This technology is useful for applications like geofencing, automated alerts, or context-aware computing, where actions are triggered based on the device's physical location. The system ensures accurate and reliable location-based responses by continuously monitoring the device's position and comparing it against the stored trigger value.
5. The system of claim 1 , wherein the first value is a speed value associated with a speed of the device and a speed represented via the trigger value.
This invention relates to systems for controlling device operation based on sensor data. Specifically, it addresses the problem of determining and utilizing a device's speed for operational control. The system includes a device that generates a trigger value. This trigger value is associated with a speed of the device. The system also determines a first value, which is a speed value. This first value is derived from both the actual speed of the device and the speed represented by the trigger value. This combined speed information is then used for controlling the device's operation. The trigger value itself is generated by a sensor, which can be a motion sensor or a speed sensor, and it represents a speed threshold or a speed indication. The system may also include a processor that receives the trigger value and the actual speed of the device, calculates the first value based on these inputs, and then uses this first value to adjust the device's behavior, such as its speed, power, or functionality.
6. The system of claim 1 , wherein the operations further comprise updating the permission value in response to determining a rule related to hierarchical access to the subset of sharable data has been satisfied.
A system for managing hierarchical access to sharable data involves controlling permissions based on predefined rules. The system monitors access requests to a subset of sharable data and evaluates whether a rule related to hierarchical access has been satisfied. When a rule is met, the system updates the permission value associated with the data, allowing or restricting access accordingly. This ensures that access permissions dynamically adjust based on hierarchical relationships, such as organizational roles or data sensitivity levels. The system may also include components for storing data, defining access rules, and enforcing permissions. By automating permission updates, the system enhances security and compliance while reducing manual administrative overhead. The hierarchical access rules may consider factors like user roles, data classification, or temporal constraints to determine appropriate access levels. This approach improves data governance by ensuring that permissions align with organizational policies and security requirements.
7. The system of claim 1 , wherein the operations further comprise updating the permission value in response to determining a rule related to allowing access to the subset of sharable data based on a user-identified relationship has been satisfied.
A system for managing access to sharable data within a computing environment addresses the challenge of controlling data access based on dynamic user relationships. The system includes a data storage component that stores sharable data and a permission management module that assigns permission values to subsets of the data. These permission values determine whether a user can access specific data subsets. The system also includes a relationship assessment module that evaluates user-identified relationships, such as familial, professional, or social connections, to determine if predefined rules for data access are satisfied. When a rule is met—for example, if a user confirms a relationship with another individual—the permission value for the relevant data subset is updated to grant or modify access. This ensures that data sharing aligns with the evolving relationships between users, enhancing security and privacy while maintaining flexibility. The system may also include a user interface for defining relationships and rules, as well as a monitoring component to track access and enforce permissions. By dynamically adjusting permissions based on verified relationships, the system provides a more adaptive and context-aware approach to data access control.
8. The system of claim 1 , wherein the subset of the sharable data is determined based on sharable location information.
A system for managing and sharing data between devices or users in a networked environment addresses the challenge of securely and efficiently distributing only relevant portions of data to authorized recipients. The system includes a data processing module that identifies and categorizes data into sharable and non-sharable subsets based on predefined criteria. A sharing module then distributes the sharable data to authorized recipients while restricting access to non-sharable data. The system also includes a user interface for configuring sharing preferences and a security module to enforce access controls. In this specific implementation, the subset of sharable data is determined based on sharable location information. This means the system evaluates the geographic or positional attributes of the data to decide what can be shared. For example, if the data includes location tags or coordinates, the system may share only data associated with specific regions or exclude sensitive location-based information. The system may also use location-based rules, such as sharing data only when devices are within a certain proximity or when users are in predefined zones. This approach ensures that location-sensitive data is shared appropriately while maintaining privacy and security. The system may integrate with GPS, Wi-Fi, or other location services to dynamically assess and enforce sharing policies based on real-time location data.
9. The system of claim 1 , wherein the subset of the sharable data is determined based on sharable schedule information.
A system for managing and sharing data within a networked environment addresses the challenge of securely and efficiently distributing data among multiple users or devices. The system includes a data processing module that identifies and categorizes data based on predefined criteria, such as user permissions, device capabilities, or contextual factors like time or location. A sharing module then selectively transmits a subset of the data to authorized recipients, ensuring that only relevant or permitted information is shared. The system further includes a scheduling module that tracks and manages the timing of data sharing, allowing for automated or conditional distribution based on predefined schedules or events. In this specific implementation, the subset of sharable data is determined based on sharable schedule information, meaning the data shared is influenced by timing constraints, availability windows, or other time-based parameters. This ensures that data is only shared when appropriate, enhancing security and efficiency. The system may also include encryption and access control mechanisms to further protect the data during transmission and storage. By dynamically adjusting the shared data based on schedule information, the system optimizes resource usage and minimizes unnecessary data transfers.
10. The system of claim 1 , wherein the subset of the sharable data is determined based on sharable user equipment service information.
A system for managing data sharing in a network environment addresses the challenge of securely and efficiently distributing data among multiple devices while maintaining privacy and compliance. The system includes a data processing module that identifies and categorizes data into sharable and non-sharable subsets based on predefined criteria. A sharing module then facilitates the transfer of the sharable data to authorized devices or users, ensuring that sensitive or restricted information remains protected. The system also incorporates access control mechanisms to verify permissions and enforce sharing policies, preventing unauthorized access or dissemination. In this specific implementation, the system determines the subset of sharable data by analyzing user equipment service information. This information may include device capabilities, user preferences, network conditions, or service-level agreements, allowing the system to dynamically adjust the data sharing process. For example, if a device has limited storage or bandwidth, the system may prioritize or compress certain data types to optimize sharing efficiency. Similarly, if a user has restricted access rights, the system may exclude sensitive data from the sharable subset. By leveraging user equipment service information, the system ensures that data sharing is both context-aware and compliant with operational constraints.
11. A method, comprising: accessing, by a system comprising a processor, a sharing profile associated with an entity; determining, by the system, sharable data that is accessible at a selectable granularity designated in the sharing profile; in response to the sharing profile comprising a selectable target spatial condition value associated with a user identity, designating, by the system, a permission value based on the selectable target spatial condition of the sharing profile and a position of a target device; and facilitating, by the system, access to the sharable data in response to a selectable temporal condition related to time-limited access to the shareable data being determined to have satisfied a rule related to the permission value, wherein the selectable temporal condition is stored in the sharing profile and is adjusted in response to receiving an updated time of access value via a user interface of a user equipment associated with the entity.
This invention relates to a method for controlling access to data based on spatial and temporal conditions defined in a sharing profile. The method involves a system with a processor that accesses a sharing profile linked to an entity, such as an individual or organization. The profile specifies sharable data and the granularity at which it can be accessed, allowing for fine-grained control over data sharing. The system determines which data is accessible based on the profile's settings. If the profile includes a spatial condition tied to a user identity, the system evaluates the user's device location against this condition to assign a permission value. Access is granted only if a temporal condition—such as a time-limited access window—is satisfied. This temporal condition is stored in the profile and can be dynamically adjusted by the entity through a user interface, allowing real-time modifications to access permissions. The method ensures secure and flexible data sharing by combining spatial and temporal constraints, enabling entities to control who can access their data and when, based on predefined rules. This approach is useful in scenarios requiring location-based or time-sensitive access control, such as sharing sensitive information with authorized users only within specific geographic areas or timeframes.
12. The method of claim 11 , wherein the updating the permission value based on the selectable target spatial condition of the sharing profile comprises determining a distance value associated with a distance between the target device and a selectable boundary.
This invention relates to a system for managing access permissions to digital content based on spatial conditions. The problem addressed is the need for dynamic and context-aware access control, where permissions to digital content are adjusted based on the physical location of a target device relative to predefined spatial boundaries. The system allows a user to define a sharing profile that includes selectable target spatial conditions, such as proximity to a specific location or boundary. When a target device attempts to access the content, the system evaluates the device's location and updates the permission value accordingly. This involves calculating a distance value between the target device and a selectable boundary within the sharing profile. The permission value is then adjusted based on this distance, enabling fine-grained control over content access. The system may also include a user interface for defining spatial conditions and boundaries, as well as a location tracking module to monitor the target device's position. The invention ensures that access permissions are dynamically updated in real-time, enhancing security and flexibility in content sharing.
13. The method of claim 11 , wherein the updating the permission value based on the selectable target spatial condition of the sharing profile comprises determining a proximity value associated with a proximity of the target device to a selectable location.
This invention relates to a system for managing access permissions to digital content based on spatial conditions. The problem addressed is the need for dynamic and location-aware access control, where permissions to shared content are adjusted based on the physical proximity of a target device to a predefined location. The system allows a user to create a sharing profile that includes selectable spatial conditions, such as a specific geographic location or a distance threshold. When a target device attempts to access the shared content, the system evaluates the device's proximity to the selectable location and updates the permission value accordingly. For example, if the target device is within a certain distance of the predefined location, the permission value may be adjusted to grant or restrict access. The method ensures that access permissions are dynamically modified based on real-time spatial data, enhancing security and contextual relevance in content sharing. The system may also integrate with other permission-based mechanisms, such as time-based or user-based restrictions, to provide a comprehensive access control framework. The invention is particularly useful in scenarios where location-based access is critical, such as enterprise environments, smart home systems, or location-sensitive applications.
14. The method of claim 11 , wherein the updating the permission value based on the selectable target spatial condition of the sharing profile comprises determining a location value associated with comparing a location of the target device to a selectable location.
This invention relates to a system for managing access permissions to digital content based on spatial conditions. The problem addressed is the need for dynamic and location-aware access control, where permissions to digital content can be adjusted based on the physical location of a target device. The system allows a user to define a sharing profile that includes selectable spatial conditions, such as a specific geographic location or proximity to a reference point. When a target device attempts to access the content, the system updates the permission value by comparing the device's current location to the defined spatial condition. If the device is within the specified location, the permission value is adjusted to grant access; otherwise, access may be restricted. The system may also incorporate additional spatial conditions, such as time-based restrictions or movement patterns, to further refine access control. This approach enhances security and flexibility in content sharing by ensuring that access is granted only when the target device meets predefined spatial criteria. The invention is particularly useful in scenarios where location-based access is critical, such as enterprise security, parental controls, or location-sensitive applications.
15. The method of claim 11 , wherein the updating the permission value based on the selectable target spatial condition of the sharing profile comprises determining a speed value associated with a speed of the target device.
This invention relates to a system for managing access permissions to shared resources based on spatial conditions and device characteristics. The problem addressed is the need for dynamic and context-aware access control in shared environments, where permissions should adapt to real-time conditions such as device location, movement, and other spatial factors. The method involves updating a permission value for a target device based on a selectable target spatial condition defined in a sharing profile. The spatial condition may include factors like proximity to a reference point, movement direction, or speed. Specifically, the method determines a speed value associated with the target device's movement and adjusts the permission value accordingly. For example, if the device is moving at a high speed, access permissions may be restricted to ensure safety or prevent unauthorized use. The system may also evaluate other spatial conditions, such as the device's distance from a predefined boundary or its position relative to other devices, to further refine access control. The method ensures that permissions are dynamically adjusted in response to changing spatial conditions, enhancing security and usability in shared environments. The system may be applied in various contexts, including vehicle access control, smart home systems, or industrial automation, where spatial awareness is critical for managing resource access.
16. A mobile device, comprising: a processor; and a memory that stores executable instructions that, when executed by the processor, facilitate performance of operations, comprising: receiving input corresponding to an information sharing profile associated with a user identity determined to be associated with a device other than the mobile device; assigning, to a first value of the information sharing profile, a selectable spatial condition value related to a spatial characteristic of the device in response to receiving a spatial condition value associated with the user identity via an interface of the mobile device; assigning, to a second value of the information sharing profile, a sharable information designation value related to designating information related to the user identity as sharable information in response to receiving an information designation value associated with the user identity via the interface of the mobile device; assigning, to a third value of the information sharing profile, a sharable information granularity value related to designating a level of data granularity associated with the sharable information in response to receiving an information granularity value associated with the user identity via the interface of the mobile device; updating a permission value in response to the first value being determined to have satisfied a designated spatial condition, wherein the permission value is associated with an updatable temporal-expiration condition, the first value, the second value, and the third value, and wherein the updatable temporal-expiration value is adjusted in response to receiving an updated time value associated with the user identity via the interface of the mobile device; and enabling access to a portion of the sharable information related to the user identity based on the permission value, wherein the access is via the device other than the mobile device.
This invention relates to a mobile device system for managing user identity information sharing based on spatial and temporal conditions. The system addresses the challenge of securely and selectively sharing user data across devices while maintaining control over access permissions. The mobile device includes a processor and memory storing executable instructions that facilitate operations for configuring and enforcing information-sharing profiles. The system receives input corresponding to a user's information-sharing profile, which is associated with a device other than the mobile device. The profile includes three key values: a spatial condition value, a sharable information designation value, and a sharable information granularity value. The spatial condition value defines spatial characteristics (e.g., location or proximity) that must be satisfied for access to be granted. The sharable information designation value specifies which user data is designated as sharable, while the granularity value determines the level of detail (e.g., coarse or fine-grained) of the shared information. The system updates a permission value when the spatial condition is met, and this permission is tied to a temporal-expiration condition that can be adjusted via user input. Access to the sharable information is enabled for the other device only when the permission value is active, ensuring controlled and time-limited sharing of user data.
17. The mobile device of claim 16 , wherein the first value is a distance value associated with a distance between the device and a boundary.
A mobile device includes a positioning system to determine its location relative to a physical boundary, such as a perimeter or restricted area. The device calculates a first value representing the distance between itself and the boundary, ensuring accurate spatial awareness. This distance value is used to trigger alerts, enforce access control, or guide navigation within the boundary. The device may also include a communication module to transmit the distance data to a remote system for monitoring or analysis. Additionally, the device may adjust its operational parameters, such as signal strength or power consumption, based on proximity to the boundary. The positioning system may use GPS, Wi-Fi, Bluetooth, or other localization technologies to determine the distance. The boundary may be predefined or dynamically adjusted based on environmental conditions or user inputs. The device may further include a user interface to display the distance to the boundary or provide warnings when approaching the boundary. This system is useful in applications like asset tracking, geofencing, or safety monitoring, where maintaining awareness of spatial limits is critical.
18. The mobile device of claim 16 , wherein the mobile device is a first device, wherein the device is a second device, and wherein the first value is a proximity value associated with a proximity of the device to a third device.
This invention relates to mobile devices configured to determine and utilize proximity values between devices. The technology addresses the challenge of accurately assessing spatial relationships between mobile devices in environments where direct communication may be unreliable or unavailable. The system includes a first mobile device that measures a proximity value indicating its distance or relative position to a second device, which may be another mobile device or a fixed reference point. Additionally, the first device may also determine its proximity to a third device, enabling multi-device spatial mapping or coordination. The proximity values are derived from signals such as Bluetooth, Wi-Fi, or other wireless communication protocols, allowing the devices to infer spatial relationships without requiring continuous high-precision location data. This capability supports applications like device pairing, location-based services, or collaborative sensing, where knowing the relative positions of devices enhances functionality. The system may also include mechanisms to refine proximity estimates by combining multiple signal measurements or applying filtering techniques to reduce noise. The invention improves upon prior art by providing a scalable and adaptable method for proximity detection in dynamic environments, reducing reliance on infrastructure-dependent positioning systems.
19. The mobile device of claim 16 , wherein the first value is a location value associated with a location of the device.
A mobile device includes a processor and a memory storing instructions that, when executed, cause the processor to determine a first value and a second value, where the first value is a location value associated with the device's location. The device compares the first value to the second value, which may be a predefined threshold or another location value, and generates an output based on the comparison. The output can include an alert, a notification, or an action such as adjusting device settings or transmitting data. The device may also receive input from sensors, such as GPS, Wi-Fi, or cellular signals, to determine the location value. The comparison may involve determining whether the device is within a specific geographic area, moving at a certain speed, or approaching a predefined boundary. The system can be used for location-based services, security applications, or automated responses to changes in the device's position. The device may further include communication interfaces to transmit the output to other systems or users. The invention addresses the need for automated, location-aware decision-making in mobile devices to enhance functionality, security, or user experience.
20. The mobile device of claim 16 , wherein the first value is a speed value associated with a speed of the device.
A mobile device includes a sensor system configured to detect environmental conditions and a processing system that determines a first value based on the detected conditions. The processing system adjusts a second value, such as a display brightness or a power consumption parameter, based on the first value. The first value may represent a speed of the device, which is derived from motion data collected by the sensor system. The device may also include a communication interface for transmitting the first value to an external system, such as a server or another mobile device. The processing system may further analyze the first value to detect anomalies or trends, which can be used to optimize device performance or trigger alerts. The sensor system may include accelerometers, gyroscopes, or other motion sensors to measure movement, while the processing system applies algorithms to convert raw sensor data into the first value. The device may also incorporate machine learning models to improve accuracy in determining the first value over time. The overall system aims to enhance device functionality by dynamically adjusting settings based on real-time environmental and motion data.
Unknown
January 9, 2018
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